Skip to main content

Extremely fast bert tokenizer

Project description

FlashTokenizer

The world's fastest CPU tokenizer library!

EFFICIENT AND OPTIMIZED TOKENIZER ENGINE FOR LLM INFERENCE SERVING

FlashTokenizer is a high-performance tokenizer implementation in C++ of the BertTokenizer used for LLM inference. It has the highest speed and accuracy of any tokenizer, such as FlashAttention and FlashInfer, and is 10 times faster than BertTokenizerFast in transformers.

[!NOTE]

Why?

  • We need a tokenizer that is faster, more accurate, and easier to use than Huggingface's BertTokenizerFast. (link1, link2, link3)

  • PaddleNLP's BertTokenizerFast achieves a 1.2x performance improvement by implementing Huggingface's Rust version in C++. However, using it requires installing both the massive PaddlePaddle and PaddleNLP packages.

  • Tensorflow-text's FastBertTokenizer actually demonstrates slower performance in comparison.

  • Microsoft's Blingfire takes over 8 hours to train on custom data and shows relatively lower accuracy.

  • Rapid's cuDF provides a GPU-based BertTokenizer, but it suffers from accuracy issues.

  • Unfortunately, FastBertTokenizer and BertTokenizers developed in C# and cannot be used in Python. (As a side note, I don't know C#, but I believe once something is implemented in C#, it shouldn't have "Fast" in its name.)

  • This is why we developed FlashTokenizer. It can be easily installed via pip and is developed in C++ for straightforward maintenance. Plus, it guarantees extremely fast speeds. We've created an implementation that's faster than Blingfire and easier to use. FlashTokenizer is implemented using the LinMax Tokenizer proposed in Fast WordPiece Tokenization, enabling tokenization in linear time. Finally It supports parallel processing at the C++ level for batch encoding, delivering outstanding speed.

Banner



FlashTokenizer includes the following core features

[!TIP]

  • Implemented in C++17.

    • MacOS: g++(14.2.0) or clang++(16.0.0).
    • Windows: g++(8.1.0)-MinGW64 or, Visual Studio 2019.
    • Ubuntu: g++(11.4.0) or clang++(14.0.0).
  • Equally fast in Python via pybind11.

  • Support for parallel processing at the C++ level using OPENMP.

News

[!IMPORTANT]
[Mar 22 2025]

  • Added DFA to AC Trie.

[Mar 21 2025]

  • Improving Tokenizer Accuracy

[Mar 19 2025]

  • Memory reduction and slight performance improvement by applying LinMaxMatching from Aho–Corasick algorithm.
  • Improved branch pipelining of all functions and force-inline applied.
  • Removed unnecessary operations of WordpieceTokenizer(Backward).
  • Optimizing all functions to operate except for Bloom filter is faster than caching.
  • punctuation, control, and whitespace are defined as constexprs in advance and used as Bloom filters.
  • Reduce unnecessary memory allocation with statistical memory profiling.
  • In ✨FlashTokenizer✨, bert-base-uncased can process 35K texts per second on a single core, with an approximate processing time of 28ns per text.

[Mar 18 2025]

  • Improvements to the accuracy of the BasicTokenizer have improved the overall accuracy and, in particular, produce more accurate results for Unicode input.

[Mar 14 2025]

  • The performance of the WordPieceTokenizer and WordPieceBackwordTokenizer has been improved using Trie, which was introduced in Fast WordPiece Tokenization.
  • Using FastPoolAllocator in std::list improves performance in SingleEncoding, but it is not thread-safe, so std::list<std::string> is used as is in BatchEncoding. In BatchEncoding, OPENMP is completely removed and only std::thread is used.

[Mar 10 2025]

  • Performance improvements through faster token mapping with robin_hood and memory copy minimization with std::list.

Token Ids Map Table Performance Test.

Token and Ids Map used the fastest robin_hood::unordered_flat_map<std::string, int>.

[Mar 09 2025] Completed development of flash-tokenizer for BertTokenizer.

1. Installation

Requirements

  • Windows(AMD64), MacOS(ARM64), Ubuntu(x86-64) .
  • g++ / clang++ / MSVC.
  • python 3.9 ~ 3.12.

Install from PIP

# Windows(Visual Studio)
pip install -U flash-tokenizer
# Ubuntu
sudo apt install gcc g++ make cmake -y
pip install setuptools wheel build pybind11
CC=gcc CXX=g++ pip install -U flash-tokenizer
# MacOS
brew install gcc
CC=gcc CXX=g++ pip install -U flash-tokenizer

Install from Source

git clone https://github.com/NLPOptimize/flash-tokenizer
cd flash-tokenizer
pip install .

2. Sample

from flash_tokenizer import BertTokenizerFlash
from transformers import BertTokenizer

titles = [
    'is there any doubt about it "None whatsoever"',
    "세상 어떤 짐승이 이를 드러내고 사냥을 해? 약한 짐승이나 몸을 부풀리지, 진짜 짐승은 누구보다 침착하지.",
    'そのように二番目に死を偽装して生き残るようになったイタドリがどうして初めて見る自分をこんなに気遣ってくれるのかと尋ねると「私が大切にする人たちがあなたを大切にするから」と答えては'
]

vocab_file = "sample/vocab.txt"

tokenizer1 = BertTokenizerFlash(vocab_file, do_lower_case=False)
tokenizer2 = BertTokenizer(vocab_file, do_lower_case=False)

for title in titles:
    print(title)
    print(tokenizer1.tokenize(title))
    print(tokenizer2.tokenize(title))
    ids1 = tokenizer1(title, max_length=512, padding="longest").input_ids[0]
    ids2 = tokenizer2(title, max_length=512, padding="longest").input_ids
    print(ids1)
    print(ids2)
is there any doubt about it "None whatsoever"
['is', 'there', 'any', 'doubt', 'about', 'it', '"', 'None', 'what', '##so', '##ever', '"']
['is', 'there', 'any', 'doubt', 'about', 'it', '"', 'None', 'what', '##so', '##ever', '"']
[101, 10124, 11155, 11178, 86697, 10978, 10271, 107, 86481, 12976, 11669, 23433, 107, 102]
[101, 10124, 11155, 11178, 86697, 10978, 10271, 107, 86481, 12976, 11669, 23433, 107, 102]

세상 어떤 짐승이 이를 드러내고 사냥을 해? 약한 짐승이나 몸을 부풀리지, 진짜 짐승은 누구보다 침착하지.
['세', '##상', '어떤', '짐', '##승', '##이', '이를', '드', '##러', '##내', '##고', '사', '##냥', '##을', '해', '?', '약', '##한', '짐', '##승', '##이나', '몸', '##을', '부', '##풀', '##리', '##지', ',', '진', '##짜', '짐', '##승', '##은', '누', '##구', '##보다', '침', '##착', '##하지', '.']
['세', '##상', '어떤', '짐', '##승', '##이', '이를', '드', '##러', '##내', '##고', '사', '##냥', '##을', '해', '?', '약', '##한', '짐', '##승', '##이나', '몸', '##을', '부', '##풀', '##리', '##지', ',', '진', '##짜', '짐', '##승', '##은', '누', '##구', '##보다', '침', '##착', '##하지', '.']
[101, 9435, 14871, 55910, 9710, 48210, 10739, 35756, 9113, 30873, 31605, 11664, 9405, 118729, 10622, 9960, 136, 9539, 11102, 9710, 48210, 43739, 9288, 10622, 9365, 119407, 12692, 12508, 117, 9708, 119235, 9710, 48210, 10892, 9032, 17196, 80001, 9783, 119248, 23665, 119, 102]
[101, 9435, 14871, 55910, 9710, 48210, 10739, 35756, 9113, 30873, 31605, 11664, 9405, 118729, 10622, 9960, 136, 9539, 11102, 9710, 48210, 43739, 9288, 10622, 9365, 119407, 12692, 12508, 117, 9708, 119235, 9710, 48210, 10892, 9032, 17196, 80001, 9783, 119248, 23665, 119, 102]

そのように二番目に死を偽装して生き残るようになったイタドリがどうして初めて見る自分をこんなに気遣ってくれるのかと尋ねると「私が大切にする人たちがあなたを大切にするから」と答えては
['その', '##ように', '二', '番', '目', 'に', '死', 'を', '偽', '装', 'して', '生', 'き', '残', 'る', '##ようになった', '##イ', '##タ', '##ド', '##リ', '##が', '##ど', '##う', '##して', '初', 'めて', '見', 'る', '自', '分', 'を', '##こ', '##んな', '##に', '気', '遣', 'って', '##く', '##れる', '##のか', '##と', '尋', 'ね', '##ると', '「', '私', 'が', '大', '切', 'にする', '人', 'たちが', '##あ', '##な', '##た', '##を', '大', '切', 'にする', '##から', '」', 'と', '答', 'えて', '##は']
['その', '##ように', '二', '番', '目', 'に', '死', 'を', '偽', '装', 'して', '生', 'き', '残', 'る', '##ようになった', '##イ', '##タ', '##ド', '##リ', '##が', '##ど', '##う', '##して', '初', 'めて', '見', 'る', '自', '分', 'を', '##こ', '##んな', '##に', '気', '遣', 'って', '##く', '##れる', '##のか', '##と', '尋', 'ね', '##ると', '「', '私', 'が', '大', '切', 'にする', '人', 'たちが', '##あ', '##な', '##た', '##を', '大', '切', 'にする', '##から', '」', 'と', '答', 'えて', '##は']
[101, 11332, 24273, 2150, 5632, 5755, 1943, 4805, 1980, 2371, 7104, 11592, 5600, 1913, 4814, 1975, 27969, 15970, 21462, 15713, 21612, 10898, 56910, 22526, 22267, 2547, 19945, 7143, 1975, 6621, 2534, 1980, 28442, 60907, 11312, 4854, 7770, 14813, 18825, 58174, 75191, 11662, 3456, 1945, 100812, 1890, 5949, 1912, 3197, 2535, 84543, 2179, 78776, 111787, 22946, 20058, 11377, 3197, 2535, 84543, 16867, 1891, 1940, 6076, 27144, 11588, 102]
[101, 11332, 24273, 2150, 5632, 5755, 1943, 4805, 1980, 2371, 7104, 11592, 5600, 1913, 4814, 1975, 27969, 15970, 21462, 15713, 21612, 10898, 56910, 22526, 22267, 2547, 19945, 7143, 1975, 6621, 2534, 1980, 28442, 60907, 11312, 4854, 7770, 14813, 18825, 58174, 75191, 11662, 3456, 1945, 100812, 1890, 5949, 1912, 3197, 2535, 84543, 2179, 78776, 111787, 22946, 20058, 11377, 3197, 2535, 84543, 16867, 1891, 1940, 6076, 27144, 11588, 102]

3. Other Implementations

Most BERT-based models use the WordPiece Tokenizer, whose code can be found here. (A simple implementation of Huggingface can be found here).

Since the BertTokenizer is a CPU intensive algorithm, inference can be a bottleneck, and unoptimized tokenizers can be severely slow. A good example is the BidirectionalWordpieceTokenizer introduced in KR-BERT. Most of the code is the same, but the algorithm traverses the sub token backwards and writes a larger value compared to the forward traversal. The paper claims accuracy improvements, but it's hard to find other quantitative metrics, and the accuracy improvements aren't significant, and the tokenizer is seriously slowed down.

  • transformers (Rust Impl, PyO3)
  • paddlenlp (C++ Impl, pybind)
  • tensorflow-text (C++ Impl, pybind)
  • blingfire (C++ Impl, Native binary call)

Most developers will either use transformers.BertTokenizer or transformers.AutoTokenizer, but using AutoTokenizer will return transformers.BertTokenizerFast.

Naturally, it's faster than BertTokenizer, but the results aren't exactly the same, which means you're already giving up 100% accuracy starting with the tokenizer.

BertTokenizer is not only provided by transformers. PaddleNLP and tensorflow-text also provide BertTokenizer.

Then there's Blingfire, which is developed by Microsoft and is being abandoned.

PaddleNLP requires PaddlePaddle and provides tokenizer functionality starting with version 3.0rc. You can install it as follows

##### Install PaddlePaddle, PaddleNLP
python -m pip install paddlepaddle==3.0.0b1 -i https://www.paddlepaddle.org.cn/packages/stable/cpu/
pip install --upgrade paddlenlp==3.0.0b3
##### Install transformers
pip install transformers==4.47.1
##### Install tf-text
pip install tensorflow-text==2.18.1
##### Install blingfire
pip install blingfire

With the exception of blingfire, vocab.txt is all you need to run the tokenizer right away. (blingfire also requires only vocab.txt and can be used after 8 hours of learning).

The implementations we'll look at in detail are PaddleNLP's BertTokenizerFast and blingfire.

  • blingfire: Uses a Deterministic Finite State Machine (DFSM) to eliminate one linear scan and unnecessary comparisons, resulting in a time of O(n), which is impressive.
    • Advantages: 5-10x faster than other implementations.
    • Disadvantages: Long training time (8 hours) and lower accuracy than other implementations. (+Difficult to get help due to de facto development hiatus).
  • PaddleNLP: As shown in the experiments below, PaddleNLP is always faster than BertTokenizerFast (HF) to the same number of decimal places, and is always faster on any OS, whether X86 or Arm.
    • Advantages: Internal implementation is in C++ Compared to transformers.BertTokenizerFast implemented in Rust, it is 1.2x faster while outputting exactly the same values.
      • You can't specify pt(pytorch tensor) in return_tensors, but this is not a problem.
    • Disadvantages: none, other than the need to install PaddlePaddle and PaddleNLP.

4. Performance test

4.1 Performance test (Single text encoding)

Accuracy is the result of measuring google's BertTokenizerFast as a baseline. If even one of the input_ids is incorrect, the answer is considered incorrect.

FlashTokenizer

FlashTokenizer

Tokenizer Performance Comparison

google-bert/bert-base-cased

Tokenizer Elapsed Time texts Accuracy
BertTokenizerFast(Huggingface) 84.3700s 1,000,000 99.9226%
BertTokenizerFast(PaddleNLP) 75.6551s 1,000,000 99.9226%
FastBertTokenizer(Tensorflow) 219.1259s 1,000,000 99.9160%
Blingfire 13.6183s 1,000,000 99.8991%
FlashBertTokenizer 8.1968s 1,000,000 99.8216%

google-bert/bert-base-uncased

Tokenizer Elapsed Time texts Accuracy
BertTokenizerFast(Huggingface) 91.7882s 1,000,000 99.9326%
BertTokenizerFast(PaddleNLP) 83.6839s 1,000,000 99.9326%
FastBertTokenizer(Tensorflow) 204.2240s 1,000,000 99.1379%
Blingfire 13.2374s 1,000,000 99.8588%
FlashBertTokenizer 7.6313s 1,000,000 99.6884%

google-bert/bert-base-multilingual-cased

Tokenizer Elapsed Time texts Accuracy
BertTokenizerFast(Huggingface) 212.1570s 2,000,000 99.7964%
BertTokenizerFast(PaddleNLP) 193.9921s 2,000,000 99.7964%
FastBertTokenizer(Tensorflow) 394.1574s 2,000,000 99.7892%
Blingfire 38.9013s 2,000,000 99.9780%
FlashBertTokenizer 20.4570s 2,000,000 99.8970%

beomi/kcbert-base

Tokenizer Elapsed Time texts Accuracy
BertTokenizerFast(Huggingface) 52.5744s 1,000,000 99.6754%
BertTokenizerFast(PaddleNLP) 44.8943s 1,000,000 99.6754%
FastBertTokenizer(Tensorflow) 198.0270s 1,000,000 99.6639%
Blingfire 13.0701s 1,000,000 99.9434%
FlashBertTokenizer 5.2601s 1,000,000 99.9484%

microsoft/llmlingua-2-bert-base-multilingual-cased-meetingbank

Tokenizer Elapsed Time texts Accuracy
BertTokenizerFast(Huggingface) 208.8858s 2,000,000 99.7964%
BertTokenizerFast(PaddleNLP) 192.6593s 2,000,000 99.7964%
FastBertTokenizer(Tensorflow) 413.2010s 2,000,000 99.7892%
Blingfire 39.3765s 2,000,000 99.9780%
FlashBertTokenizer 22.8820s 2,000,000 99.8970%

KR-BERT

Tokenizer Elapsed Time texts Accuracy
BertTokenizerBidirectional(KR-BERT Original) 128.3320s 1,000,000 100.0000%
FlashBertTokenizer(Bidirectional) 10.4492s 1,000,000 99.9631%
%%{ init: { "er" : { "layoutDirection" : "LR" } } }%%
erDiagram
    Text ||--o{ Preprocess : tokenize
    Preprocess o{--|| Inference : memcpy_h2d
    Inference o{--|| Postprocess : memcpy_d2h

6. Compatibility

FlashBertTokenizer can be used with any framework. CUDA version compatibility for each framework is also important for fast inference of LLMs.

  • PyTorch no longer supports installation using conda.
  • ONNXRUNTIME is separated by CUDA version.
  • PyTorch is also looking to ditch CUDA 12.x in favor of the newer CUDA 12.8. However, the trend is to keep CUDA 11.8 in all frameworks.
    • CUDA 12.x was made for the newest GPUs, Hopper and Blackwell, and on GPUs like Volta, CUDA 11.8 is faster than CUDA 12.x.
DL Framework Version OS CPU CUDA 11.8 CUDA 12.3 CUDA 12.4 CUDA 12.6 CUDA 12.8
PyTorch 2.6 Linux, Windows
PyTorch 2.7 Linux, Windows
ONNXRUNTIME(11) 1.20.x Linux, Windows
ONNXRUNTIME(12) 1.20.x Linux, Windows
PaddlePaddle 3.0-beta Linux, Windows

7. GPU Tokenizer

Here is an example of installing and running cuDF in Run State of the Art NLP Workloads at Scale with RAPIDS, HuggingFace, and Dask. (It's incredibly fast)

You can run WordPiece Tokenizer on GPUs on rapids(cudf).

As you can see in how to install rapids, it only supports Linux and the CUDA version is not the same as other frameworks, so docker is the best choice, which is faster than CPU for batch processing but slower than CPU for streaming processing.

There are good example codes and explanations in the[ blog](https://developer.nvidia.com/blog/run-state-of-the-art-nlp-workloads-at-scale-with-rapids-huggingface-and-dask/#:~:text=,and then used in subsequent). To use cuDF, you must first convert vocab.txt to hash_vocab as shown below. The problem is that the hash_vocab function cannot convert multilingual. Therefore, the WordpieceTokenizer of cuDF cannot be used if there are any characters other than English/Chinese in the vocab.

import cudf
from cudf.utils.hash_vocab_utils import hash_vocab
hash_vocab('bert-base-cased-vocab.txt', 'voc_hash.txt')

TODO

Acknowledgement

FlashTokenizer is inspired by FlashAttention, FlashInfer, FastBertTokenizer and tokenizers-cpp projects.

Performance comparison

Star History

Star History Chart

References

Project details


Download files

Download the file for your platform. If you're not sure which to choose, learn more about installing packages.

Source Distribution

flash_tokenizer-1.1.6.tar.gz (6.6 MB view details)

Uploaded Source

Built Distributions

If you're not sure about the file name format, learn more about wheel file names.

flash_tokenizer-1.1.6-cp312-cp312-win_amd64.whl (199.3 kB view details)

Uploaded CPython 3.12Windows x86-64

flash_tokenizer-1.1.6-cp312-cp312-macosx_15_0_arm64.whl (200.3 kB view details)

Uploaded CPython 3.12macOS 15.0+ ARM64

flash_tokenizer-1.1.6-cp311-cp311-win_amd64.whl (198.6 kB view details)

Uploaded CPython 3.11Windows x86-64

flash_tokenizer-1.1.6-cp311-cp311-macosx_15_0_arm64.whl (201.2 kB view details)

Uploaded CPython 3.11macOS 15.0+ ARM64

flash_tokenizer-1.1.6-cp310-cp310-win_amd64.whl (197.7 kB view details)

Uploaded CPython 3.10Windows x86-64

flash_tokenizer-1.1.6-cp310-cp310-macosx_15_0_arm64.whl (199.6 kB view details)

Uploaded CPython 3.10macOS 15.0+ ARM64

flash_tokenizer-1.1.6-cp39-cp39-win_amd64.whl (198.8 kB view details)

Uploaded CPython 3.9Windows x86-64

flash_tokenizer-1.1.6-cp39-cp39-macosx_15_0_arm64.whl (199.8 kB view details)

Uploaded CPython 3.9macOS 15.0+ ARM64

File details

Details for the file flash_tokenizer-1.1.6.tar.gz.

File metadata

  • Download URL: flash_tokenizer-1.1.6.tar.gz
  • Upload date:
  • Size: 6.6 MB
  • Tags: Source
  • Uploaded using Trusted Publishing? No
  • Uploaded via: twine/6.1.0 CPython/3.9.21

File hashes

Hashes for flash_tokenizer-1.1.6.tar.gz
Algorithm Hash digest
SHA256 36bfde9b526966fd29c1426b767cc66a93858a0867f1d5bcee1b32f2d1a7b465
MD5 3dcdcbccab7751c34f8a75a1edceafee
BLAKE2b-256 907f2eddbed070bd4da0a1e61e14b7d546af5e9f07b9a0cf111dc1bc606adefd

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp312-cp312-win_amd64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp312-cp312-win_amd64.whl
Algorithm Hash digest
SHA256 3f5bcc84f3dc88ee8563b81c1953833ce4991c1f85266d6ab7051f6425177ef7
MD5 7cfaaf4b185ec34c30854283c422f21a
BLAKE2b-256 443e0c280507b5875cf39ab9d26fc6db22dc9511201e64d70dabbe3f4aa6986d

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp312-cp312-macosx_15_0_arm64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp312-cp312-macosx_15_0_arm64.whl
Algorithm Hash digest
SHA256 84ce530ee18d5079b220d9091e308176fe1b0e93c1b78ed7c17e86aa55e39779
MD5 40992ba0f729d0f709382abafc0b333a
BLAKE2b-256 c65bb6eb81d4ad8bcd89de8658c0d71ce316ee66ffd4db565b0795e81b1f368a

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp311-cp311-win_amd64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp311-cp311-win_amd64.whl
Algorithm Hash digest
SHA256 b8a67376f6074e69e1a33c6aeff0b498652cba25b0598121dc0cd1024f544a71
MD5 5d9603e9f5ab848cabe80945e3ed78ab
BLAKE2b-256 d3eb7870f937a044c1aab5858666640fb77c5c40355a9ed323b82ab26f20edc6

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp311-cp311-macosx_15_0_arm64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp311-cp311-macosx_15_0_arm64.whl
Algorithm Hash digest
SHA256 1a7d010cefedf4e32d2dd226cd2ca1ae859573d0ad861b4c1135762bfd61765b
MD5 3020226dd5dd026906fefd2d7b5b3dca
BLAKE2b-256 0d08089c00126de1da3d65ca440311e6d1e633f838f485cb41ebf4393d02d1dd

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp310-cp310-win_amd64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp310-cp310-win_amd64.whl
Algorithm Hash digest
SHA256 4f2cfc6f7c6cf9ee48c3091e46f123e594ba4189029cca80f5d1acc21968b37f
MD5 8789da742fd8528a3e4ad2313bcae658
BLAKE2b-256 40955e491d345102b82bbf1a6c34abbad63a8514643df830ddda518e1b76cc9f

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp310-cp310-macosx_15_0_arm64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp310-cp310-macosx_15_0_arm64.whl
Algorithm Hash digest
SHA256 845fa85132aa6be610774a6e558a298c7fcd29c06a2985d70433a220a9e4d0c3
MD5 99c5e1927c2c09d97d4e51cd038f9d36
BLAKE2b-256 266593e93e38247f47f5fd9cbefad7453c1d3aaa2542b36e02ab1dfbcff83c72

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp39-cp39-win_amd64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp39-cp39-win_amd64.whl
Algorithm Hash digest
SHA256 379dbeeef050245f52b0842ea977ae2b49433d16b0b76a9cf3fc178cf3c16d6d
MD5 8275391bd7814679db4d443a1e759173
BLAKE2b-256 6f6323894ce299447b9ab31f80d5c7aa4e3292b1597bb00fcb394925a49eb346

See more details on using hashes here.

File details

Details for the file flash_tokenizer-1.1.6-cp39-cp39-macosx_15_0_arm64.whl.

File metadata

File hashes

Hashes for flash_tokenizer-1.1.6-cp39-cp39-macosx_15_0_arm64.whl
Algorithm Hash digest
SHA256 187443425a086be269b4a7946dcf8c3623d5eeb535781bd039cac336c4d951cd
MD5 64cc830949d4b8a269faffb978121497
BLAKE2b-256 b22f6dda940c9b21991cff2b7c4b9519dcc23df7dbb4372dd9fb42d1016b4809

See more details on using hashes here.

Supported by

AWS Cloud computing and Security Sponsor Datadog Monitoring Depot Continuous Integration Fastly CDN Google Download Analytics Pingdom Monitoring Sentry Error logging StatusPage Status page